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150 THINGS TO KNOW FOR THE AP BIOLOGY TEST TEST HINTS: 1. Realize that you will not know everything but no penalty for guessing so answer each m/c 2. Narrow the m/c to 2 answers 3. Don’t know anything about the m/c , take your best stab at an answer and move on. 4. Don’t screw up on your bubble sheet! 4. Essays: write something on all essays 1. remember on graphs: independent and dependent variable 2. write in essay form in order of the questions. 3. Put the letter of the question before the essay a,b,c,d,etc. 4. Use specific terminology and explain in as much detail as possible. 1. Punctuated Equilibrium: macro evolution ( major groups disappear and appear in the fossil record) Ex. Flowering plants, dinosaurs, vascular plants 2. Endo-symbiont theory 3. Reverse Transcriptase: retro virus 4. Cell respiration vs Photosynthesis equation O2 + C6H12O6 -- 6CO2 + 6H2O 5. Adaptive radiation: organisms adapt to new niches w/in the same habitat due to Selective pressures 6. Spermatogenesis vs Oogenesis 7. Cohesive and Adhesive factors of water (also high specific heat) 8. Respiration vs Transpiration vs perspiration 9. BOD and Dissolved oxygen 10. Agonistic behavior: aggressive or submissive behaviors towards other animals 11. Taxis vs kinesis movement due to a stimulus vs random movement 12. Hardy Weinberg equilibrium: 5 conditions met then there will be no change in gene frequencies 13. p2 + 2pq + q2 = 1 : p + q = 1 where p = dominant allele frequency in pop and q = recessive freq. 14. Chi Square X = ∑( o – e )2 Degrees of freedom for science probability use 0.05 e 15. Homology vs analogy 16. Stomata : place on bottom of leaf where gas transfer occurs ( guard cells) 17. Guttation vs transpiration 18. Plant hormones: (auxin, gibberellins, cytokinins) stims (ethylene, abscisic acid) inhibs 19. Xylem vs phloem = vascular tissues in plants 20. Meristems: actively dividing cells in plants ( apical and lateral meristems) 21. Allosteric vs regular enzymes active sites vs regulatory sites 22. Lac Operon a set of genes that regulates the metabolism of lactose in Escherichia Coli 23. Convergent vs divergent evolution Convergent: bird wing: fly wing Divergent Whale flip: horse leg 24. Chemiosmosis : Chemiosmotic phosphorylation :oxidative phosphorylation 25. Electrochemical gradient 26. pH = concentration of hydronium ions H+ 27. Q 10 = 10 degree increase in temperature double enzymatic activity 28. C-3 , C-4 , CAM plants: adaptations and types C-4 stores 1 extra carbon 29. Dihybrid cross 9:3:3:1 phenotypic ratios unless linkage is happening 30. Lysogenic vs lytic cycles of viruses 31. Antibiotics interfere with the cell wall construction of bacteria 32. Vaccines : are an injection of attenuated virus that triggers the secondary immune response 33. 34. 35. 36. 37. 38. 39. 40. 41. 42. 43. 44. 45. 46. 47. 48. 49. 50. 51. 52. 53. 54. 55. 56. 57. 58. 59. 60. 61. 62. 63. 64. 65. 66. 67. 68. 69. 70. 71. 72. 73. 74. 75. 76. 77. Primary and Secondary immune response: b-lymphocytes and t-lymphocytes DNA polymerase works to put nucleotides together in a 5’ to 3’ direction ( reads the 3’to 5’) Lagging strand leading strand during DNA replication Okazaki fragments : Genetic drift Founder effect Introns and exons : found on DNA ( removed in RNA) Photosynthetic pigments: chlorophyll a, chlorophyll b , carotenoids (carotene) Cytochrome system ( is the electron transport system) ( cytochrome pigments embedded in the plasma membrane that moves electrons ) P 680 p700 (photosystem I and photosystem II) Kreb cycle is the citric acid cycle Cladograms : ingroup, outgroup, taxon 3 domains: archaea eubacteria eukarya DNA enzymes : Primase, helicase, topoisomerase, polymerase Fatty acid ---- phospholipid----- triglyceride structures Unsaturated vs saturated fatty acids Fluid mosaic model of plasma membranes Active transport vs passive transport vehicles ( pumps) Endocytosis vs exocytosis Carbohydrates, lipids, nucleic acids , proteins Cho, cho, chonp, chons Protein structure: primary , secondary, tertiary, quaternary Ph and temperature graphs of enzyme activity Stanley Miller and Harold Urey experiment: early earth’s atmosphere CH4, H2,NH3, H2O no free O2 Nephron Sodium potassium pump , calcium pump Reverse transcriptase ( retroviruses) Cell tonicity : iso, hypo, hyper, osmotic potential LUCA last universal common ancestor coccus , bacillus, spirillum Prokaryotes vs Eukaryotes Cyanobacteria are believed to have produced the first free oxygen on earth Microtubules, Microfilaments, intermediate filaments Cytoskeleton vs cytosol Restriction enzymes Prokaryotes: 1 replication bubble Eukaryotes: many replication bubbles Heterotrophs vs autotrophs ( chemoautotrophs vs photoautotrophs) Leaf structure Oxidation vs reduction (if it gains an H it is most likely reduced) LEO goes GER Energy intermediates ATP & GTP 7kcals /n per bond 2 high energy bonds per ATP molecule 3 parts of a nucleotide Basal body of a cilium or flagellum Four main plant tissues: meristem , ground tissues, epidermis, vascular 78. 79. 80. 81. 82. 83. 84. 85. 86. 87. 88. 89. 90. Levels of organization and a phylum at each cellular, tissue, organ , system Protostomate and deuterostomate Aerobic vs anaerobic respiration fermentation Glycolysis pyruvate acetyl Co A , Citric Acid , Oxaloacetic acid , NADH, FADH2 Stoma vs Stroma Calvin cycle : dark rxns of photosynthesis ( carbon fixation) Eutrophication cultural vs natural Oligotrophic lakes and eutrophic lakes photophosphorylation PGA and PGAL C4 plants outcompete C3 in high sunlight because they store extra Carbon to use when CO2 conc low. CAM plants are desert succulents ( cactus) stomata close during day open at night to avoid dessication) ( C3 and C4 plants stomata opened up during day) 91. C4 uses 5ATP per molecule C3 only use 3ATP per molecule ( more efficient) 92. C4 sugarcane, corn 93. Telomere: region of repetitive DNA at the end of DNA molecule ( increases longevity of the molecule 94. Bacterial transformation 95. Transposable elements 96. Repetitive DNA 97. TATA box: usually followed by 3 adenine bases usually binding site of RNA polymerase ( virtually unchanged over time) 5’- TATAAAA-3’ 98. Plasmid 99. Sticky ends of DNA 100. Introns are removed in the process of transcription 101. Replication, transcription, translation , translocation 102. Codons, anticodons, aminoacyl attachment site stop codons 3 start codon 1 aug 103. Methylation keeps genes turned off 104. Proto-oncogenes and oncogenes 105. Totipotent and multipotent 106. Asexual reproduction parthenogenesis, binary fission, budding 107. Nondisjunction 108. Humoral and cellular immune responses 109. Specific and nonspecific immune responses 110. Primary and secondary immune responses 111. Striated, cardiac, smooth muscle tissue 112. Endocrine system: thalamus, hypothalamus, pituitary 113. Platelets, erythrocytes, leukocytes 114. Open and closed circulatory systems 115. Double loop circulatory systems 116. PMAT 117. Chiasmata , crossing over 118. G1, S G2 119. Interkinesis 120. Cytokinesis 121. Neurochemical transmitters acetyl choline 122. 123. 124. 125. 126. 127. 128. Synaptic gap Neuron 3 parts Clearly know Mendel’s laws: (1st) Law of Segregation, (2nd) Law of Independent assortment Linkage groups Codominance (both alleles expressed, incomplete dominance(blending), sex linked traits, sex influenced traits Invertebrate phyla porifera, cnidaria, platyhelminthes, nematode, mollusca, Arthropoda, annelida, echinodermata 129. Acoelomate, pseudocoelomate, coelomate 130. Translocation and nondisjunction 131. Behavioral, structural , physiological adaptations 132. R Strategists, k strategists 133. Primary succession, secondary succession 134. Flower parts: Pistil= stigma + style : anther stamen 135. Climax community 136. S curve, j curve ( predator prey curves) 137. Biomes and ecosystems 138. Temperate , tropical , polar 139. Excretory fluids, ammonia, uric acid, urea 140. Gymnosperms vs angiosperms 141. Dicotyledons vs monocotyledons 142. Fire maintained ecosystems 143. Biomass pyramid 144. Producers, consumers, decomposers 145. Homeothermic organisms poilikothermic organisms ( endo vs ecto) 146. Trophic levels 147. Deuterostomates vs protostomate development 148. Ontogeny recapitulates phylogeny 149. SnRNPs: spliceosomes (small nuclear ribonucleoproteins) : These are segments of protein and RNA that are responsible for removal of Introns 150. HOX genes: shows that the same genes common across a large number of species: supports the idea of evolution